An ecosystem and configuration method based on smart gloves and modular functional units

Abstract

This invention discloses an ecosystem and configuration method based on smart gloves and modular functional units, relating to the field of human-computer interaction device technology. The system includes a smart glove and a modular power supply and identification unit. The smart glove includes a gesture recognition unit, a laser interaction unit, and a main control unit. The modular unit is a detachable physical module that integrates a battery and an identification chip storing a unique identifier. When the main control unit detects a connection to the modular unit, it reads its identifier and determines the associated personalized function configuration accordingly. This configuration includes at least the setting of a gesture command set or a laser working mode, thereby dynamically reconfiguring the smart glove. The corresponding method includes the steps of detecting connection, reading the identifier, obtaining configuration, and performing reconfiguration. This invention, by deeply integrating user identity and personalized configuration into detachable physical hardware, achieves seamless, secure, and personalized switching of the smart glove in multi-user scenarios and constructs a scalable service ecosystem based on the hardware carrier.

Description

Technical Field

[0001] This invention relates to the field of human-computer interaction devices and wearable computing technology, specifically to a system in which an intelligent interactive device and a detachable functional module work together, and more particularly to an ecosystem based on intelligent gloves and modular power supply and identity recognition units, and its personalized configuration method. Background Technology

[0002] With the development of human-computer interaction technology, smart gloves, as an intuitive interactive terminal, have shown great potential in fields such as virtual reality, augmented reality, remote collaboration, and professional control. Existing smart gloves typically integrate multiple sensors (such as inertial measurement units, bending sensors, and tactile sensors) and feedback devices, resulting in complex functions and high costs.

[0003] In scenarios involving multi-user collaboration or device sharing, such as educational institutions, corporate showrooms, and command centers, multiple users typically need to take turns using the same or a few sets of smart glove devices. Currently, personalized user settings mainly rely on software account login systems. This approach has the following significant problems: 1. Cumbersome switching: Each time a user changes, they need to manually log in or switch accounts on the device, disrupting the interactive experience; 2. Insufficient security: Account passwords are at risk of being leaked or misused, and the device itself cannot identify the physical operator; 3. Loose configuration binding: User configurations are stored in the cloud or locally on the device, without a strong physical connection to the device itself, making them easy to confuse or lose.

[0004] Furthermore, existing modular designs are mostly found in consumer electronics products such as mobile phones and game controllers, where the main purpose of the modules is to expand hardware performance (such as adding lenses, batteries, and controllers). Although these modules may have identification chips, their functions are limited to accessory authenticity authentication, firmware upgrades, or simple power communication, and they do not achieve deep integration and dynamic reconstruction with the core interactive functions, user permissions, and personalized experience of the main device.

[0005] Therefore, designing a mechanism for seamless, secure, and personalized user identity switching and function configuration for complex, specialized interactive devices like smart gloves, and thereby building a scalable hardware ecosystem, has become a pressing technical problem in this field. Summary of the Invention

[0006] This invention aims to overcome the shortcomings of existing technologies and provide an ecosystem and configuration method based on smart gloves and modular functional units. Its core lies in using a physically detachable module (referred to as a "modular power supply and identity recognition unit" or "energy gem") that integrates power supply and identity recognition functions as a physical carrier for user identity and personalized configuration, thereby realizing a "plug-and-play, personalized" ecological experience.

[0007] To achieve the above objectives, the technical solution adopted by the present invention is as follows: In a first aspect, the present invention provides an ecosystem based on smart gloves and modular functional units, comprising: The smart glove includes a gesture recognition unit for sensing the user's hand gestures, a laser interaction unit for emitting visible and invisible lasers, and a main control unit. The modular power supply and identification unit is a physical module that can be detachably connected to the smart glove, and integrates a battery, a charging management circuit and an identification chip that stores a unique identifier. The main control unit of the smart glove is configured as follows: a) Upon detecting that the modular power supply is connected to the identity recognition unit, its identity identifier is read; b) Based on the identity identifier, determine the personalized function configuration associated with the identity, wherein the personalized function configuration includes at least the set of gesture commands that the gesture recognition unit can recognize, or the enabling, disabling or parameter setting of the available working modes of the laser interaction unit; c) Dynamically reconfigure the smart glove according to the personalized function configuration.

[0008] In a preferred embodiment, the gesture recognition unit includes a linear sensor array disposed on the pad of the thumb and pressure sensing modules disposed on the index and middle fingers, and the gesture command set includes operation commands defined based on the combination of the sliding trajectory of the linear sensor array and the contact state of the pressure sensing modules.

[0009] In one embodiment, the smart glove is connected to the modular power supply and identification unit via a standardized hardware interface, which includes power contacts for power supply, communication contacts for data communication, and supports hot-swapping.

[0010] In one embodiment, the personalized feature configuration also includes a user permission level bound to the identity identifier, and the main control unit controls access to system-level settings or advanced functions according to the user permission level.

[0011] In one embodiment, the main control unit is configured to: send the identity identifier to the server via a wireless communication module, and download the personalized function configuration and / or user preference settings associated with the identity identifier from the server.

[0012] In one embodiment, the dynamic reconfiguration further includes: loading a user interface theme associated with the identity, or restoring a specific application working state associated with the identity.

[0013] Secondly, the present invention provides a configuration method based on smart gloves and modular functional units, applied to the above-mentioned system, the method comprising: Detects physical connection events between the modular power supply and identification unit and the smart glove; In response to the connection event, read the unique identifier stored in the modular power supply and identification unit; Based on the identity identifier, the corresponding personalized function configuration is obtained. The personalized function configuration defines the set of gesture commands that the gesture recognition unit of the smart glove can recognize, or the setting of the working mode that the laser interaction unit can use. The smart glove is reconfigured at runtime based on the personalized feature configuration.

[0014] In one embodiment, obtaining personalized feature configuration based on an identity identifier includes: querying a configuration file stored locally, or sending the identity identifier to a remote server and receiving configuration data returned by the server.

[0015] In one embodiment, the runtime reconfiguration of the smart glove includes: enabling or disabling specific gesture recognition functions, and / or adjusting the operating parameters of the laser interaction unit.

[0016] In one embodiment, the method further includes: restoring the configuration of the smart glove to a default state or a standby state after the modular power supply and identification unit is removed. Beneficial effects

[0017] Compared with the prior art, the present invention has the following significant advantages: Seamless personalization switching: Users only need to insert their own "modular power supply and identification unit" and the smart glove will automatically switch to its exclusive configuration, permissions and interface, realizing a seamless "hardware as key" experience and greatly simplifying the switching process when multiple users share the device.

[0018] Hardware-level security and identity binding: User identities are strongly bound to physical hardware modules, avoiding the risk of software account password leaks. Device permissions and function configurations are associated with specific physical modules, resulting in clearer management and higher security, making it particularly suitable for enterprise-level management.

[0019] Ecosystem and Business Model Innovation: This module serves as the carrier of functions, services, and users. Manufacturers can provide differentiated feature packages and service subscriptions by releasing different versions of the module (such as "Expert Edition," "Student Edition," and "Enterprise Edition"), thus building a sustainable hardware + service ecosystem.

[0020] Improve management efficiency: In institutional application scenarios, administrators can manage user permissions and device functions in batches by managing different modules, realizing centralized and refined control of hardware.

[0021] The technology is closely integrated: This invention is not simply a "replaceable battery + user configuration", but rather a deep integration of the specific and complex interactive hardware of smart gloves (such as gesture recognition units and laser interaction units with specific layouts), realizing the dynamic binding of functional configuration and interactive hardware, and solving the specific technical problems of dedicated devices in multi-user environments. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of the structure of an ecosystem in one embodiment of the present invention.

[0023] Figure 2 This is a schematic diagram of the connection interface between the modular power supply and identification unit and the smart glove in one embodiment of the present invention.

[0024] Figure 3 This is a flowchart of a configuration method in one embodiment of the present invention.

[0025] Figure 4 This is a schematic diagram of the dynamic reconfiguration process in one embodiment of the present invention. Detailed Implementation

[0026] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments. It should be understood that the specific embodiments described herein are for illustrative purposes only and are not intended to limit the scope of the invention. Example

[0027] like Figure 1 As shown, the ecosystem in this embodiment includes a smart glove 100 and a modular power supply and identification unit 200.

[0028] The smart glove 100 includes: a gesture recognition unit 110, which includes a linear sensor array 111 located on the thumb pad and a pressure sensing module 112 located on the sides of the index and middle fingers, for detecting specific gesture operations of the user; a laser interaction unit 120, which is integrated on the tip of the index finger, for emitting visible indicator laser and invisible positioning laser; a main control unit 130, for processing sensor data, controlling laser emission, and managing communication and configuration; a wireless communication module 140; and an interface unit 150.

[0029] The modular power supply and identification unit 200 can be designed in the shape of a gemstone, and its internal components include: a battery 210 to power the entire system; a charging management circuit 220; an identification chip 230 with a globally unique ID code pre-programmed inside; and a corresponding interface terminal 240.

[0030] The interface unit 150 of the smart glove 100 and the interface terminal 240 of the modular power supply and identification unit 200 form a standardized physical interface to realize physical connection, power supply and data communication. This interface supports hot-swapping.

[0031] When a user inserts their own modular power supply and identification unit 200 into the smart glove 100, the main control unit 130 detects the connection event through the interface and then reads the unique identification identifier (ID) in the identification chip 230 through communication protocols such as I2C or single bus.

[0032] The main control unit 130 then sends the ID to the cloud server 300 via the wireless communication module 140 (such as Wi-Fi / Bluetooth). The cloud server 300 stores a user personalization configuration database 310 bound to this ID. The database 310 records the configuration corresponding to this user, for example: Permission levels: such as "Administrator", who can access all gestures and system settings; "Regular User", who can only use basic gestures.

[0033] Gesture configuration: Enable "Advanced design gesture set" or disable "Administrator gestures".

[0034] Device preferences: Laser power mode is set to "Energy Saving", and the default user interface theme is "Dark".

[0035] Application status: The status of the 3D model file and view that was being operated on during the last use.

[0036] The cloud server 300 sends the corresponding configuration data packet to the smart glove 100. The main control unit 130 receives and parses the configuration packet, and then performs dynamic reconfiguration: Depending on the permission level, specific gesture recognition algorithm modules can be enabled or disabled at the system level.

[0037] Load the corresponding user interface theme.

[0038] Restore a specific application context.

[0039] Adjust the parameters of the laser interaction unit 120 to the user preference settings.

[0040] At this point, the smart glove 100 is fully adapted to the current user's identity and preferences, achieving personalized readiness. When the user removes the modular unit 200, the main control unit 130 can automatically restore the glove configuration to the default guest state or enter a low-power standby mode. Example

[0041] In another embodiment, considering offline network scenarios, personalized function configurations can be partially or fully pre-configured in the local storage of the smart glove 100. After the main control unit 130 reads the identity ID, it first searches for a matching configuration file locally. If found, it loads it directly; if not found, it prompts the user to connect to the network or use the default configuration. The local configuration can be synchronously updated via the network when a connection is available. Example

[0042] The identity recognition chip 230 of the modular power supply and identity recognition unit 200 can also store simple configuration identifiers. After the main control unit 130 reads the identifier, it can directly reconfigure locally according to predefined rules (such as the identifier "A" corresponding to "demonstration mode", disabling all editing gestures), without interacting with the server, resulting in a faster response speed.

[0043] This invention deeply integrates physical hardware modules, user identity, software functions, and personalized experiences, providing an innovative user management and ecosystem expansion solution for smart wearable devices, especially complex professional interactive devices. The above description is merely a preferred embodiment of the invention and is not intended to limit the invention. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of this invention should be included within the scope of protection of this invention.

Claims

1. An ecosystem based on smart gloves and modular functional units, characterized in that, include: The smart glove includes a gesture recognition unit for sensing the user's hand gestures, a laser interaction unit for emitting visible and invisible lasers, and a main control unit. The modular power supply and identification unit is a physical module that can be detachably connected to the smart glove, and integrates a battery, a charging management circuit and an identification chip that stores a unique identifier. The main control unit of the smart glove is configured as follows: a) Upon detecting that the modular power supply is connected to the identity recognition unit, its identity identifier is read; b) Based on the identity identifier, determine the personalized function configuration associated with the identity, wherein the personalized function configuration includes at least the set of gesture commands that the gesture recognition unit can recognize, or the enabling, disabling or parameter setting of the available working modes of the laser interaction unit; c) Dynamically reconfigure the smart glove according to the personalized function configuration.

2. The system as described in claim 1, characterized in that, The gesture recognition unit includes a linear sensor array disposed on the pad of the thumb and pressure sensing modules disposed on the index and middle fingers. The gesture command set includes operation commands defined based on the combination of the sliding trajectory of the linear sensor array and the contact state of the pressure sensing modules.

3. The system as described in claim 1, characterized in that, The smart glove is connected to the modular power supply and identification unit through a standardized hardware interface, which includes power contacts for power supply, communication contacts for data communication, and supports hot-swapping.

4. The system as described in claim 1, characterized in that, The personalized function configuration also includes the user permission level bound to the identity identifier, and the main control unit controls access to system-level settings or advanced functions according to the user permission level.

5. The system as described in claim 1, characterized in that, The main control unit is configured to: send the identity identifier to the server via a wireless communication module, and download the personalized function configuration and / or user preference settings associated with the identity identifier from the server.

6. The system as described in claim 1, characterized in that, The dynamic reconfiguration also includes: loading the user interface theme associated with the identity, or restoring the working state of a specific application associated with the identity.

7. A configuration method based on smart gloves and modular functional units, characterized in that, The method is applied to a system including smart gloves and modular power supply and identification units, and the method includes: Detects physical connection events between the modular power supply and identification unit and the smart glove; In response to the connection event, read the unique identifier stored in the modular power supply and identification unit; Based on the identity identifier, the corresponding personalized function configuration is obtained. The personalized function configuration defines the set of gesture commands that the gesture recognition unit of the smart glove can recognize, or the setting of the working mode that the laser interaction unit can use. The smart glove is reconfigured at runtime based on the personalized feature configuration.

8. The method as described in claim 7, characterized in that, The process of obtaining personalized function configuration based on identity includes: querying a configuration file stored locally, or sending the identity to a remote server and receiving configuration data returned by the server.

9. The method as described in claim 7, characterized in that, The runtime reconfiguration of the smart glove includes enabling or disabling specific gesture recognition functions, and / or adjusting the operating parameters of the laser interaction unit.

10. The method as described in claim 7, characterized in that, The method further includes: after the modular power supply and identification unit is removed, restoring the configuration of the smart glove to the default state or standby state.

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